3D Kinematic Passive-Steering Control with Roll Compensation for Rover Trajectory Following over Rough Terrain


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Date

2020-10

Publication Type

Conference Paper

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yes

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Abstract

Some of the most appealing areas for future planetary surface exploration lie in rough, uneven terrains, such as craters and cold traps, which are currently inaccessible by state-of-the-art robotic systems [1]. To provide modularity for access and in-situ sampling within such extreme environments, Jet Propulsion Laboratory (JPL) and California Institute of Technology have collaborated to develop the DuAxel rover system, a modular robot composed of two Axel rappelling vehicles docked to a central module into a four-wheeled configuration, suited for driving long distances due to articulated passivesteering capabilities [2]. Inspired by Carnegie Mellon’s Zoë rover [3], a 3D kinematic control strategy, leveraging a novel, DuAxel-centric model, has been developed to enable precise trajectory following over rough, flat terrain with presence of obstacles.

Publication status

published

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Volume

Pages / Article No.

5057

Publisher

Universities Space Research Association (USRA)

Event

International Symposium on Artificial Intelligence, Robotics and Automation in Space (i-SAIRAS 2020) (virtual)

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Organisational unit

09718 - Mintchev, Stefano (ehemalig) / Mintchev, Stefano (former) check_circle

Notes

Conference lecture held on Otober 21, 2020. Due to the Coronavirus (COVID-19) the conference was conducted virtually.

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